public void SetState(EnergyState s)
{
switch (s)
{
case EnergyState.Charging:
consuptionMultiplier = 5;
break;
case EnergyState.Consuming:
consuptionMultiplier = -0.2f;
break;
case EnergyState.Dashing:
consuptionMultiplier = -5;
break;
case EnergyState.ChargingDashing:
consuptionMultiplier = 2;
break;
default:
consuptionMultiplier = -0.2f;
break;
}
state = s;
}
/// <summary>
/// <para>
/// Returns the amount of energy required to be at the top of a given EnergyState.
/// It's recommended that the actual EnergyState property be used to determine
/// the current energy bucket a creature is in.
/// </para>
/// </summary>
/// <param name="species">The species for which to calculate</param>
/// <param name="energyState">EnergyState enum value for the bucket to get the upper energy bounding for.</param>
/// <param name="radius">The radius of the organism to use in calculation</param>
/// <returns>
/// System.Double representing the amount of energy to be at the top of a given energy state.
/// </returns>
public static double UpperBoundaryForEnergyState(ISpecies species, EnergyState energyState, int radius)
{
var energyBuckets = (species.MaximumEnergyPerUnitRadius * (double)radius) / 5;
switch (energyState)
{
case EnergyState.Dead:
return(0);
case EnergyState.Deterioration:
return(energyBuckets * 1);
case EnergyState.Hungry:
return(energyBuckets * 2);
case EnergyState.Normal:
return(energyBuckets * 4);
case EnergyState.Full:
return(species.MaximumEnergyPerUnitRadius * (double)radius);
default:
throw new ApplicationException("Unknown EnergyState.");
}
}
private void Initialize()
{
previousEnergyState = EnergyState.Idle;
currentEnergyState = EnergyState.Idle;
currentEnergy = startingEnergy;
currentMaxEnergy = initialMaxEnergy;
}
/// <summary>
/// Create a new state object to represent an organism.
/// </summary>
/// <param name="id">The GUID ID representing this organism in the world.</param>
/// <param name="species">The species which defines the basic properties of the organism.</param>
/// <param name="generation">The familial generation number.</param>
/// <param name="initialEnergyState">The initial EnergyState of the organism.</param>
/// <param name="initialRadius">The initial Radius of the organism.</param>
internal OrganismState(string id, ISpecies species, int generation, EnergyState initialEnergyState, int initialRadius)
{
DeathReason = PopulationChangeReason.NotDead;
ID = id;
Species = species;
Generation = generation;
SetStoredEnergyInternal(OrganismState.UpperBoundaryForEnergyState(species, initialEnergyState, initialRadius));
Radius = initialRadius;
events = new OrganismEventResults();
}
IEnumerator regenerateRunEnergy()
{
while (m_RunEnergy < m_MaxRunEnergy)
{
yield return(new WaitForSeconds(m_RegenRunTime));
++m_RunEnergy;
}
m_RunEnergyRoutine = null;
m_RunEnergyState = EnergyState.idle;
}
IEnumerator degenerateRunEnergy()
{
while (m_RunEnergy > 0)
{
yield return(new WaitForSeconds(m_DegenRunTime));
--m_RunEnergy;
}
m_RunEnergyRoutine = null;
m_RunEnergyState = EnergyState.idle;
}
public void Start()
{
Age = 0.0f;
energyState = GetComponent <EnergyState>();
movementCapability = GetComponent <MovementCapability>();
eater = GetComponent <EatOnCollide>();
edible = GetComponent <EdibleState>();
massMove = GetComponent <MovementBasedOnMass>();
ai = GetComponent <FishAI>();
if (ColorTarget != null)
{
mesh = ColorTarget.GetComponent <MeshRenderer>();
}
}
public override void Update () {
base.Update();
float fractionOfMaxEnergy = currentEnergy/maxEnergy;
if (fractionOfMaxEnergy <= energyRatioToBeCritical) {
this.state = EnergyState.CRITICAL;
}
else if (fractionOfMaxEnergy <= energyRatioToBeDrained) {
this.state = EnergyState.DRAINED;
}
else {
this.state = EnergyState.FULL;
}
}
void preGroundCheckUpdate()
{
// Height Adjusting
if (m_Input.crouch.IsHeld && m_IsGrounded)
{
heightState = HeightState.crouched;
}
else
{
heightState = HeightState.standing;
}
if (isChangingHeight && isHeightObstructed(m_HeightState))
{
heightState = m_PrevValidHeightState;
}
// Running
if (m_Input.run.PressedDown && m_RunEnergy > m_RqdRunEnergy)
{
m_StartedValidRun = true;
}
if (desiresMove && !isCrouched && m_Input.run.IsHeld && m_RunEnergy > 0 && m_StartedValidRun)
{
runEnergyState = EnergyState.decreasing;
}
else
{
if (!m_Input.run.IsHeld || m_RunEnergy == 0)
{
m_StartedValidRun = false;
}
runEnergyState = EnergyState.increasing;
}
// Jumping
if (m_Input.jump.PressedDown)
{
if (m_JumpRequest != null)
{
StopCoroutine(m_JumpRequest);
}
m_JumpRequest = StartCoroutine(revokeJumpRequestAfterDelay());
}
// Done before groundCheck() to ensure value is not reset when used
m_AirbornTime = m_IsGrounded ? 0f : m_AirbornTime + Time.deltaTime;
}
//Respawn
public void Respawn()
{
//pausing the game after being hit
Time.timeScale = 0f;
//Loosing a life
Continues -= 1;
//Resetting the Energy Bar upon respawning
state = EnergyState.IdleState;
curEnergy = maxEnergy;
//Respawn location
Debug.Log(Anchor.rotation);
//Anchor.Rotate(Startrotation);
Anchor.rotation = Rotation;
}
public override void Update()
{
base.Update();
float fractionOfMaxEnergy = currentEnergy / maxEnergy;
if (fractionOfMaxEnergy <= energyRatioToBeCritical)
{
this.state = EnergyState.CRITICAL;
}
else if (fractionOfMaxEnergy <= energyRatioToBeDrained)
{
this.state = EnergyState.DRAINED;
}
else
{
this.state = EnergyState.FULL;
}
}
private void Awake()
{
Initialize();
EventBus.Subscribe <IntroBootUpTextCompleteEvent>(e =>
{
Initialize();
currentEnergyState = EnergyState.Recharging;
});
EventBus.Subscribe <EnterHomeEvent>(e => currentEnergyState = EnergyState.Recharging);
EventBus.Subscribe <EnterCityEvent>(e => currentEnergyState = EnergyState.Depleting);
EventBus.Subscribe <ExitHomeEvent>(e => currentEnergyState = EnergyState.Idle);
EventBus.Subscribe <ExitCityEvent>(e => currentEnergyState = EnergyState.Idle);
EventBus.Subscribe <PauseMenuEngagedEvent>(OnPauseMenuEngagedEvent);
EventBus.Subscribe <PauseMenuDisengagedEvent>(OnPauseMenuDisengagedEvent);
movement = GetComponent <PlayerMovement>();
rb = GetComponent <Rigidbody>();
}
private void CheckState()
{
if (energyState != EnergyState.SUPER_CHARGE)
{
if (playerEnergy < 15 && playerEnergy > 3)
{
energyState = EnergyState.LOW;
}
else if (playerEnergy <= 3)
{
energyState = EnergyState.DYING;
}
else
{
energyState = EnergyState.OK;
}
if (playerEnergy <= 0)
{
if (isGoingToDie)
{
GameManager.instance.PlayDeathScene();
}
else
{
GameManager.instance.TeleportToMedicalBay();
}
}
}
else
{
playerEnergy = MAX_ENERGY;
}
if (timeElapsed >= MAX_TIME_ELAPSED)
{
//ship has reached final destination?
}
}
// Start is called before the first frame update
void Start()
{
energyState = GetComponent <EnergyState>();
audioSource = GetComponent <AudioSource>();
}
/// <summary>
/// <para>
/// Returns the amount of energy required to be at the top of a given EnergyState.
/// It's recommended that the actual EnergyState property be used to determine
/// the current energy bucket a creature is in.
/// </para>
/// </summary>
/// <param name="energyState">
/// EnergyState enum value for the bucket to get the upper energy bounding for.
/// </param>
/// <returns>
/// System.Double representing the amount of energy to be at the top of a given energy state.
/// </returns>
public double UpperBoundaryForEnergyState(EnergyState energyState)
{
double energyBuckets = (species.MaximumEnergyPerUnitRadius * (double) Radius) / (double) 5;
switch (energyState)
{
case EnergyState.Dead:
return 0;
case EnergyState.Deterioration:
return energyBuckets * (double) 1;
case EnergyState.Hungry:
return energyBuckets * (double) 2;
case EnergyState.Normal:
return energyBuckets * (double) 4;
case EnergyState.Full:
return species.MaximumEnergyPerUnitRadius * (double) Radius;
default:
throw new ApplicationException("Unknown EnergyState.");
}
}
// Start is called before the first frame update
void Start()
{
mesh = GetComponent<MeshRenderer>();
energyState = GetComponent<EnergyState>();
UpdateMaterial();
}
/// <summary>
/// Creates a brand new state object for a plant.
/// </summary>
/// <internal/>
public PlantState(string id, ISpecies species, int generation, EnergyState initialEnergyState, int initialRadius)
: base(id, species, generation, initialEnergyState, initialRadius)
{
}
public void EnergySuperCharge()
{
ReplenishFullEnergy(true);
playerEnergy = MAX_ENERGY;
energyState = EnergyState.SUPER_CHARGE;
}
// Start is called before the first frame update
void Start()
{
energyState = GetComponent <EnergyState>();
}
//Moving the Player ship
void movement()
{
if (state == EnergyState.IdleState || state == EnergyState.ConsumingState || state == EnergyState.RefreshState)
{
//Moving right
if (Input.GetKey(KeyCode.RightArrow))
{
Anchor.Rotate(new Vector3(0, 0, Time.deltaTime * speed));
{
//Boosting(using Energy in the process)
if (Input.GetKey(KeyCode.LeftShift))
{
Debug.Log("Boost");
state = EnergyState.ConsumingState;
Anchor.Rotate(new Vector3(0, 0, Time.deltaTime * (speed * boost)));
}
}
}
//Moving left
if (Input.GetKey(KeyCode.LeftArrow))
{
Anchor.Rotate(new Vector3(0, 0, Time.deltaTime * -speed));
{
//Boosting(using Energy in the process)
if (Input.GetKey(KeyCode.LeftShift))
{
Debug.Log("Boost");
state = EnergyState.ConsumingState;
Anchor.Rotate(new Vector3(0, 0, Time.deltaTime * (-speed * boost)));
}
}
}
}
else
{
//Moving right(throttled)
if (Input.GetKey(KeyCode.RightArrow))
{
Anchor.Rotate(new Vector3(0, 0, Time.deltaTime * speed * throttle));
}
//Moving left(throttled)
if (Input.GetKey(KeyCode.LeftArrow))
{
Anchor.Rotate(new Vector3(0, 0, Time.deltaTime * -speed * throttle));
}
}
//Energy usage while boosting
if (state == EnergyState.ConsumingState)
{
curEnergy -= consumeRate;
}
if (Input.GetKey(KeyCode.LeftShift) == false)
{
if (curEnergy >= 100)
{
state = EnergyState.IdleState;
}
if (state != EnergyState.RechargeState && curEnergy < 100)
{
state = EnergyState.RefreshState;
}
}
if (curEnergy <= 0)
{
state = EnergyState.RechargeState;
if (curEnergy >= 100)
{
state = EnergyState.IdleState;
}
}
//Normal Recharge(fast)
if (state == EnergyState.RefreshState)
{
curEnergy += refreshRate;
}
//Recharge after complete exhaustion of the Player-Ships Energy(slow)
if (state == EnergyState.RechargeState && (Input.GetKey(KeyCode.LeftShift) == false))
{
curEnergy += rechargeRate;
}
}
/// <summary>
/// Create a new state object to represent an organism.
/// </summary>
/// <param name="id">The GUID ID representing this organism in the world.</param>
/// <param name="species">The species which defines the basic properties of the organism.</param>
/// <param name="generation">The familial generation number.</param>
/// <param name="initialEnergyState">The initial EnergyState of the organism.</param>
/// <param name="initialRadius">The initial Radius of the organism.</param>
internal OrganismState(string id, ISpecies species, int generation, EnergyState initialEnergyState, int initialRadius)
{
DeathReason = PopulationChangeReason.NotDead;
ID = id;
Species = species;
Generation = generation;
SetStoredEnergyInternal(OrganismState.UpperBoundaryForEnergyState(species, initialEnergyState, initialRadius));
Radius = initialRadius;
events = new OrganismEventResults();
}
private void OnPauseMenuDisengagedEvent(PauseMenuDisengagedEvent e)
{
currentEnergyState = previousEnergyState;
}
private void OnPauseMenuEngagedEvent(PauseMenuEngagedEvent e)
{
previousEnergyState = currentEnergyState;
currentEnergyState = EnergyState.Idle;
}
// Start is called before the first frame update
void Start()
{
energyState = GetComponent <EnergyState>();
parentEnergyState = ParentObject.GetComponent <EnergyState>();
}
// Start is called before the first frame update
void Start()
{
energyState = GetComponent <EnergyState>();
UpdateScale();
}
/// <summary>
/// Creates a brand new state object for a plant.
/// </summary>
/// <internal/>
public PlantState(string id, ISpecies species, int generation, EnergyState initialEnergyState, int initialRadius)
: base(id, species, generation, initialEnergyState, initialRadius)
{
}
/// <summary>
/// <para>
/// Returns the amount of energy required to be at the top of a given EnergyState.
/// It's recommended that the actual EnergyState property be used to determine
/// the current energy bucket a creature is in.
/// </para>
/// </summary>
/// <param name="species">The species for which to calculate</param>
/// <param name="energyState">EnergyState enum value for the bucket to get the upper energy bounding for.</param>
/// <param name="radius">The radius of the organism to use in calculation</param>
/// <returns>
/// System.Double representing the amount of energy to be at the top of a given energy state.
/// </returns>
public static double UpperBoundaryForEnergyState(ISpecies species, EnergyState energyState, int radius)
{
var energyBuckets = (species.MaximumEnergyPerUnitRadius*(double) radius)/5;
switch (energyState)
{
case EnergyState.Dead:
return 0;
case EnergyState.Deterioration:
return energyBuckets*1;
case EnergyState.Hungry:
return energyBuckets*2;
case EnergyState.Normal:
return energyBuckets*4;
case EnergyState.Full:
return species.MaximumEnergyPerUnitRadius*(double) radius;
default:
throw new ApplicationException("Unknown EnergyState.");
}
}